Shengda is interested in electrochemical processes and related surface changes at nanoscale. He is now a PhD working on in-situ TEM of liquid battery cells under the supervision of Dr. Alex Robertson and Prof. Peter Bruce in Oxford.
Before coming to Oxford, Shengda obtained his BEng degree in Materials from Imperial College London. He then worked as an MPhil research student under the supervision of Dr. Steve Ooi and Sir. Harry Bhadeshia at University of Cambridge where he studied the hydrogen behaviors during phase transformation in steels.
Email:
Shengda is interested in electrochemical processes and related surface changes at nanoscale. He is now a PhD working on in-situ TEM of liquid battery cells under the supervision of Dr. Alex Robertson and Prof. Peter Bruce in Oxford.
Before coming to Oxford, Shengda obtained his BEng degree in Materials from Imperial College London. He then worked as an MPhil research student under the supervision of Dr. Steve Ooi and Sir. Harry Bhadeshia at University of Cambridge where he studied the hydrogen behaviors during phase transformation in steels.
Email:
Shengda is interested in electrochemical processes and related surface changes at nanoscale. He is now a PhD working on in-situ TEM of liquid battery cells under the supervision of Dr. Alex Robertson and Prof. Peter Bruce in Oxford.
Before coming to Oxford, Shengda obtained his BEng degree in Materials from Imperial College London. He then worked as an MPhil research student under the supervision of Dr. Steve Ooi and Sir. Harry Bhadeshia at University of Cambridge where he studied the hydrogen behaviors during phase transformation in steels.
Email:
ROBERTSON GROUP
University of Oxford
Welcome!
We research the fundamental nanoscale materials processes that occur when an energy material is operated. How the material evolves over time are investigated using the latest techniques in transmission electron microscopy (TEM).
Ca electroplating imaged in-situ by TEM
Imaging the change in atomic structure of mono- and few-layer WS2 after high-bias induced breakdown.
Atomic resolution imaging of the bonding structure of graphene sub-nanometre pores - the ultimate sieve.
Ca electroplating imaged in-situ by TEM
![Biomass-derived Nickel Phosphide Nanoparticles as a Robust Catalyst for Hydrogen Production by [...]](https://static.wixstatic.com/media/2dac71_7b7e852980f44734bf1435d122ebf39b~mv2.png/v1/fill/w_260,h_195,fp_0.50_0.50/2dac71_7b7e852980f44734bf1435d122ebf39b~mv2.png)
![Self- regeneration of Au/CeO2 based catalysts with enhanced activity and ultra-stability for [...]](https://static.wixstatic.com/media/2dac71_5c33041c90a34ac9a094d42e080fe5ad~mv2.png/v1/fill/w_260,h_195,fp_0.50_0.50/2dac71_5c33041c90a34ac9a094d42e080fe5ad~mv2.png)
![Nanoparticle Immobilization for Controllable Experiments in Liquid-Cell Transmission Electron [...]](https://static.wixstatic.com/media/2dac71_0a1941634a7240e4abd64683de88bfd1~mv2.gif)
![Epitaxial and atomically thin graphene–metal hybrid catalyst films: the dual role of graphene [...]](https://static.wixstatic.com/media/2dac71_67424a1f00b14fa2af7e550fdac1a3a0~mv2.gif)
![Electrical Breakdown of Suspended Mono- and Few-Layer Tungsten Disulfide via Sulfur Depletion [...]](https://static.wixstatic.com/media/2dac71_2f8720a8de5d4a41bb7108c2d1f5d28e~mv2.png/v1/fill/w_260,h_195,fp_0.50_0.50/2dac71_2f8720a8de5d4a41bb7108c2d1f5d28e~mv2.png)
